2012
DOI: 10.1007/s00170-012-3933-6
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A study of optimization of injection molding process parameters for SGF and PTFE reinforced PC composites using neural network and response surface methodology

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Cited by 45 publications
(18 citation statements)
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“…Subsequently, Chen et al [23] developed an approach in a soft computing paradigm for the process parameter optimization of the multiple-input and multiple-output (MIMO) plastic injection molding process, which integrated Taguchi's parameter design method, BPNN, GA, and engineering optimization concepts. Furthermore, Tzeng et al [24] constructed a hybrid method in conjunction with Taguchi orthogonal array experiments, ANOVA, RSM, BPNN, and GA to predict the quality characteristics of SGF-and PTFE-reinforced PC composites, such as ultimate strength, flexural strength, and impact resistance, and finally generate an optimal parameter setting of the injection molding process under a MIMO consideration. Recently, Huang et al [25] proposed a hybrid optimization approach integrating BPNN with embedded SA into the GA to improve its local searching ability algorithm and optimize the thickness of the blow-molded polypropylene bellows used in cars.…”
Section: Introductionmentioning
confidence: 99%
“…Subsequently, Chen et al [23] developed an approach in a soft computing paradigm for the process parameter optimization of the multiple-input and multiple-output (MIMO) plastic injection molding process, which integrated Taguchi's parameter design method, BPNN, GA, and engineering optimization concepts. Furthermore, Tzeng et al [24] constructed a hybrid method in conjunction with Taguchi orthogonal array experiments, ANOVA, RSM, BPNN, and GA to predict the quality characteristics of SGF-and PTFE-reinforced PC composites, such as ultimate strength, flexural strength, and impact resistance, and finally generate an optimal parameter setting of the injection molding process under a MIMO consideration. Recently, Huang et al [25] proposed a hybrid optimization approach integrating BPNN with embedded SA into the GA to improve its local searching ability algorithm and optimize the thickness of the blow-molded polypropylene bellows used in cars.…”
Section: Introductionmentioning
confidence: 99%
“…PTFE reinforced with short glass fibers (SGF) were optimized for injection molding. On injection of PTFE/SGF, the parameters mentioned above can significantly increase the strength and impact resistance [53].…”
Section: Injection Molding Of Ptfementioning
confidence: 99%
“…Many such hybrid techniques have been investigated to injection molding optimization also, like GA with the Taguchi method for minimizing warpage of molded components [98], GA with ANN for optimizing the initial process settings [81], genetic neural fuzzy system with 2-stage hybrid learning algorithm to predict product weight [63,64], GA with BPNN to achieve the optimal quality in terms of shear stress [101] and to minimize volumetric shrinkage [100], the Taguchi method combined with ANN and GA to achieve the minimal single response output in terms of warpage in a bus ceiling lamp base [55] and to save energy by multi-objective optimization of process parameters [70], the Taguchi method combined with BPNN and GA to determine the set of data in multiple-input single-output (MISO) by optimizing product weight [17] and to achieve multi response outputs [20], the Taguchi method and response surface method combined with BPNN and GA for predicting mechanical properties by estimating an optimal set of process parameters [110], the Taguchi method with Moldflow ® for finding the efficient frontier for a thin digital camera cover in a MIMO environment [24], Moldflow ® and orthogonal experiment method integrated with BPNN and GA to determine the optimal set of process parameters for optimizing warpage and clamp force [122], the variable complexity method combined with BPNN and GA to mice manufacturing for optimizing multiple objectives [26], GA with response surface methodology to achieve the optimal single response in terms of warpage in thin shell plastic parts [54] and to minimize sink depth in thermoplastic components [75], simulated annealing with ANN to predict part warpage in runner system by optimizing the runner dimensions [121], GA with a gradient-based method to find the optimum process parameters [59], PSO with ANN to optimize process parameters [103], BPNN with the Taguchi method and Davidson-Fletcher-Powell method to determine multiple input process parameters in order to achieve the desired product weight as the single output [18,19], the Latin hypercube sampling method combined with the Kriging method and multi-objective PSO to achieve a better Pareto frontier by reducing simulation cost [21], the response surface method integrated with Moldflow ® and Lingo software to optimize process parameters with corresponding output of warpage and shrinkage [22], GA with the mode-pursuing sampling method for achieving minimum warpage [30], ANN and artificial bee colony algorithm to determine the set of process parameters by minimizing warpage of molded components [42], the Taguchi method ...…”
Section: Hybrid Approachesmentioning
confidence: 99%